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The Techedsat/Phonesat Missions for Small Payload Quick Return

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The Techedsat/Phonesat Missions for Small Payload Quick Return TechEdSat 5 / PhoneSat 5 (T5/P5) SmallSat Presentation 2016 TechEdSat-1 TechEdSat-2 TechEdSat-3 TechEdSat-4 SOAREX-8 M.Murbach, R. Alena, A. Guarneros Luna C. Priscal, R. Shimmin J. Wheless, F. Tanner, R. Morrison, K. Oyadomari P. Papadopoulos/SJSU, D. Atkinson/UofIdaho TES/PSAT-Team NASA Ames Research Center Relevant Flight Experiments TES-N First US 3U Nanosat Evolution of TES-3 WSM1, AIM deployed off ISS First Iridium modem Camera Exo-Brake test Uplink/via email X-Band, ISM- demonstrated Band, P5 alpha, Exo-Brake II ISM-Camera and WSM2, AIM Full ExoBrake Camera ISM-Band, P5 alpha, ISM- Camera Modulated Exo-Brake SOAREX-6 TES-1 Improved positional/ 2008 Oct 4, 2012 TES-2 TES-3 target accuracy Iridium test Improved Targeting, Aug 3, 2013 WSM2, ISM Band First US Aug 21, 2013 Nanosat (6 wk deployed off deorbit) ISS First Iridium in- space TES-4 SOAREX-7 PSRP COM process Mar 3, 2015 2009 demonstration mastered (4 wk deorbit) Rad-tolerant processor SOAREX- demo 8 During test SOAREX Recent Years of Flight Experiments (WFF) -9 (WFF) TechEdSat5/ July 7, March 3, PhoneSat5 Coming up (2008-2015): 2015 2016 6 Flights +1(SOAREX8) +PhoneSats 1-4 this year!! …here before SOAREX/TechEdSat-N Team 10/20/13 Relevant Flight Experiments PhoneSat EDSN Super Strypi Oct 29, 2015 Nodes Orb-4 Atlas V Dec 3, 2015 PhoneSat 2.4 Recent Years of Flight ORS-3 Minotaur Experiments 1 (2009-2015) Nov 20, 2013 PhoneSat (still in orbit) SOAREX-9 1a, 1b, 2.0 (WFF) Antares A- March 3, SpaceLoft-6 ONE 2016 Apr 5, 2012 Apr 21, 2013 Balloon SOAREX-8 Intimidator-5 June 9, 2011 Terrier/Black Brant July 29, 2010 July 7, 2015 PhoneSat 2.5 CRS-3 Falcon 9 Apr 18, 2014 PhoneSat Team Status of Analysis TES-3 and TES-4 TES-3/TES-4 Flight Test Data 450 400 350 300 250 TES-3p Altitude (km) Altitude TES-4 200 150 100 0 10 20 30 40 50 60 Satellite Day C.Glass/LaRC [DAC/DSMC] *Active work in progress to refine models based on flight data – including uncertainty analyses (F10.7; geometric variables) - for NASA internal use only - TechEdSat-4 Extruded st Structure • 1 NASA NanoSatellite 3U Solar Design Jettisoned from the NRCSD Panels (TES-3p) (TES-3p) (July 2014) PWR Board • Exo-Brake Demonstration (Improved) • β=8kg/m^2 COM/CNTR Aft-Cover Boards (TES-3p) • Advanced Manufacturing (Improved) Exo-Brake and • COM Experiment III + GPS Iridium/GPS Antenna Deployment System (Improved location; (TES-3p) • Two-tier Architecture TES-3p) RBF Pin (TES-3p) Iridium Antenna #2 Telon Nosecap (TES-3p) Canon BP930 ISS-supplied x2 (TES-3p used 1) Improved Cartridge Design (Ease of integration/test) - for NASA internal use only - T5/P5 Flight System Architecture and Dataflow Ground Segment Space Segment Monitoring and T5/P5 Avionics PWR Subsystem Analysis Iridium Data Solar Panels Applications Distribution 8.4 V Batteries Server Iridium-1 Sensor data stream POWER Board Door and Panel As e-mail Transceiver Actuators Sensor Winch Display and Iridium USB Messaging Analysis Video Stream Applications WSN data Iridium 802.15.4 Pressure Network Crayfish Temp GPS/COMM IMU Sensor Data Display XBee and WSM WSN Status Display Iridium-3 Transceiver Wireless P5 Board Sensor Module WiFi CAM (WSM Gen-2) ISM-band ISM Zigbee sniffer Ground Station 2.4 GHz High-Rate Downlink Camera1 Camera2 TES-5 Science/Mission Objectives -Establish improved uncertainty analysis for eventual controlled flight through the Thermosphere (perform detailed comparison to the TES-3 and TES-4 with respect to key Thermosphere variable uncertainty). -Improve prediction of re-entry location. -Provide the base technology for sample return technology from orbital platforms. -Provide the eventual testing of independent TDRV-based planetary missions -Provide engineering data for an On-Orbit Tracking Device that could improve the TES-5/P-5 Flight Unit prediction of jettisoned material from the (READY to Integrate) ISS (per discussions with the TOPO group). Frequency Coordination TES-1 TES-2 TES-3p TES-4 SOARE SOARE TES-5 X-8 X-9 Iridium N/A 1616-16 1616-16 1616-16 1616-16 1616-16 1616-16 26.5 26.5 16.5 26.5 26.5 26.5 MHz MHz MHz MHz MHz MHz StenSat 437.465 N/A 437.465 N/A N/A N/A N/A MHz MHz ISM N/A N/A N/A N/A 2457 2457 2457 MHz MHz MHz WSM N/A N/A N/A N/A 2410 2410 2410 MHz MHz MHz - for NASA internal use only - De-Orbit/Targeting Interest… Sample Return/Re-entry Targeting With Modulated Exo-Brale: Validation – it WORKS! Entry Landing S. Dutta, A. Cianciolo, R. Powell , (LaRC) Application to larger payloads What is Next? ISS Sample Return SPQR-Small Payload Quick Return • 3 stage concept • On-demand sample return • COM IV experiment • EDL test platform Atromos: Nano-sat Mission to the Surface of Mars • Mission Attributes –local climatology and surface characterization of areas not accessible to large missions (most of Mars!) • Self-stabilizing re-entry probe (TDRV-Tube Deployed Re-Entry Vehicle) • EDL Technique for small probes • Dual probe demonstration 2018-2020 Summary • TES-N/Phone-N series has helped to train ~40 individual now at NASA, SpaceX, Boeing, Lockheed and …Start- ups! • Several ‘Firsts’ for ISS-deployed experiments • Numerous Technologies Advanced • COM [LOW data rate up/downlink – Iridium; MEDIUM and HIGH data rate] ü Commanding the nanosat via EMAIL • Fabrication • De-Orbit Systems (Exo-Brake – MODULATED!) • Evolving 2-tier Architecture ü Arduino/Intel-Edison-Linux based platforms • Pioneered Safety Processes for ISS Satellite Jettison • Future Work leads to ISS Sample Return, Advance Re- entry Development ….. And Mars! .
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